1550 nm optical amplifier
Save to Favorites
Overview
Specifications
| Parameter | Value |
|---|---|
| operating wavelength | Symbol: 'λc', minimum value='1535', typical value='', maximum value='1565', unit='nm' |
| saturated output power | Symbol: 'Po', minimum value='10', typical value='', maximum value='24', unit='dBm' |
| input power | Symbol: 'Δλ', minimum value='-3', typical value='', maximum value='+10', unit='dBm' |
| noise figure | Symbol: 'NF', minimum value='', typical value='4.6@0dBm Input', maximum value='5', unit='dB' |
| output power stability | Symbol: 'ΔPo', minimum value='', typical value='±0.05', maximum value='±0.3', unit='dB' |
| optical return loss | Symbol: 'RL', minimum value='45', typical value='', maximum value='', unit='dB' |
| input isolation | Symbol: 'ISOi', min='30', typical='', max='', unit='dB' |
| polarization-dependent gain | Symbol: 'PDG', minimum value='', typical value='', maximum value='0.5', unit='dB' |
| input/output optical interface | Symbol: 'FC/APC', minimum value='', typical value='', maximum value='', unit='' |
| carrier-to-noise ratio | Minimum value='50', Typical value='', Maximum value='', Unit='dB' |
| C/CTB | Minimum value='63', Typical value='', Maximum value='', Unit='dB' |
| C/CSO | Minimum value='63', Typical value='', Maximum value='', Unit='dB' |
| humidity | Minimum value='5', typical value='', maximum value='95', unit='%' |
| fan | When the temperature inside the machine reaches 50°C, the built-in fan automatically starts working. |
| input power pin | Detection range='-10dBm~+10dBm', detection accuracy='+0.2dB' |
| output power pout | Detection range='+10dBm~+24dBm', detection accuracy='+0.2dB' |
| pump laser operating current li | Detection range='0mA~1500mA', detection accuracy='+5mA' |
| pump laser fiber output power lp | Detection range='10mW~300mW', detection accuracy='+5mW' |
| pump laser cooling current teci | Detection range='-600mA~+2000mA', detection accuracy='+10mA' |
| pump laser operating temperature tect | Detection range='15oC~35oC', detection accuracy='+1 oC'℃ |
Key Features
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
C++-L++-band-blended fibre-optic amplifier
Fiber Optic Amplifiers
Ovlink
Optical indicators: units;typical values; comments Enter Power: dBm; < 22.5; maximal output power Gain factor: dB; 15~20/18~24/22~31
The C++/L++ waved fibre-optic amplifier EDFA is a product series of photopower amplifiers specially designed for fibre-optic lasers or fibre-optic communication systems; works with wavelength coverage of 1524-1572nm / 1575.16 ~1626.45nm; and has high multiplier and low noise advantages. Override C++/L++ bands High gain factor High output power
-
Inphenix semiconductor light amplifier SOA
Fiber Optic Amplifiers
Ovlink
The semiconductor light amplifier (SOA) in Inphenix's is the key device for light high-speed switches, light wavelength conversion, photoregeneration, light wavelength selection, light front magnification and power enhancement. Our SOA product covers two bands, 1310 and 1550 nm
-
Combination fibre-optic amplifier
Fiber Optic Amplifiers
Ovlink
Optical indicators: units;typical values; comments Enter Power: dBm; -6~+3; 50nm@10; dB Saturation output power: dBm; 15/17/20/23/25/26; @3dBm input
Application profiles; Mixed fibre-optic amplifiers (EDFA) are a product series of photo-power amplifiers dedicated to fibre-optic lasers or fibre-optic communication systems; semiconductor lasers pump plume fibre-optics into signal light. It has the advantage of efficient energy conversion, high gain and low noise. Desktop EDFA allows for experimental operations; users can regulate pump currents through front panels; thus changing amplifiers ' gain and output power. A small-sized modular EDFA is also provided for system integration; uplink software controls or serial command controls are supported. Product type; C-band single-band mixed fibre-optic small signal amplifier C-band single-band combined fibre-optic power amplifier C-band increased flatly C-band increased flatly PV amplifier, pulsed PV amplifier
-
Cband Blended fibre-optic amplifier
Fiber Optic Amplifiers
Ovlink
Work wavelength: 1524~1575nm Enter Power: -20~0dBm Output Power: ≥23; condition: Pin=0dBm
C-band fibre-optic amplifiers are a broadband photo power amplifier product; they are widely applied to fibre-optic communications; they have the advantage of high gain and low noise. Desktops, racks or modular seals can be provided according to the needs of the client; parameters are accepted for customization. Work wavelength range; 1524-1572nm high gain low NF
-
C+L band mixed fibre-optic amplifier
Fiber Optic Amplifiers
Ovlink
Work wavelength: 1524~1627nm Enter Power: -10~5dBm Output Power: ≥v15; condition: Pin=-10dBm
The C+L waved fibre-optic amplifier is a hyperbroadband power fibre-optic emitter; it is widely used for various applications, including free space communications, related beam integration and detection systems. High power, low NF, etc. Desktops, racks or modular seals can be provided according to the needs of the client; parameters are accepted for customization. Work wavelength range; 1524-1627nm high output power low NF adjustable power control
Related Articles
A laser bar is an array semiconductor laser chip integrated with dozens of emitters, which realizes hundred-watt quasi-continuous output on a single chip. With regular emitter arrangement and controllable fill factor, integrated thermal design and superior wall-plug efficiency compared to single chips, it acts as the core light source for high-power pumping, medical lasers and precision processing.
Driven by the continuous pursuit of higher precision and efficiency in optical communication and optoelectronic device manufacturing, OLCR-1000 Low-Coherence Interferometer, independently developed by Wuhan Guanggu Interconnect Technology Co., Ltd., provides an innovative technical solution for distributed return loss testing of optical fibers and optoelectronic devices.
Fluoride crystal glass and K9 optical glass are two core optical substrates widely used in precision optical systems, laser equipment and photoelectric scientific research.
For pulsed laser and full-spectrum optical testing, photodiodes and thermopiles have inherent drawbacks. Photodiodes show weak response in infrared band, while thermopiles feature slow response and cannot capture nanosecond narrow pulses.
Loading...
Name
Phone
Organization
Use Case
Database Platform